Abstract: A wireless communication device (100) and method therein for movement detection are disclosed. The wireless communication device comprises at least a modem (110) and an operating system (120). The wireless communication device (100) estimates by the modem (110) a relative movement of the wireless communication device. If the estimated relative movement is larger than a threshold, the modem (110) sends a movement notification to the operating system (120). The operating system (120) decides which action to be taken for the wireless communication device.

Abstract: There is provided mechanisms for staggering connection establishment occasions for associated wireless modems. A method is performed by a controller. The method comprises configuring a group of associated wireless modems for mobility reporting. Each wireless modem is configured to report, to its serving radio access network node, at least one mobility related parameter as part of their mobility reporting. The wireless modems collectively are configured with different reporting trigger conditions for the same mobility related parameter.

Abstract: Beamforming characteristics determined for a master RAT are reused to form the beam(s) for a different, secondary RAT when communications using the second RAT becomes desirable, e.g., during handover or for dual connectivity scenarios, when an antenna arrangement for the first RAT is close enough to the antenna arrangement for the second RAT. When these antenna arrangements are “close enough,” the assumption is that the beamforming characteristics for the first RAT are a reasonable approximation of the beamforming characteristics that would be determined for the second RAT. By reusing the beamforming characteristics, the solution presented herein provides the efficiency and directionality provided by dynamic beamforming while avoiding the delay typically associated with traditional beamforming solutions.

Abstract: Disclosed is a method for a communication device comprising a plurality of antenna elements arranged in an antenna array structure and configured to perform dynamic calibration of the antenna elements for beamforming. The method comprises performing interference level measurements and antenna calibration measurements during an antenna calibration opportunity, and adapting the antenna calibration measurements for one or more of the antenna elements based on the measured interference level. Corresponding apparatus, communication device and computer program product are also disclosed.

Abstract: A method of a control node, operable in a communication network and comprising controlling circuitry configured to estimate quality of service (QoS) for geographical locations in the network is disclosed.

Abstract: The solution presented herein improves the power consumption of an antenna array, such as used in beamforming systems, based on the antenna weights of the one or more antenna elements of the subarrays of the antenna array. To that end, a transmitter node comprising the antenna array determines whether the antenna weights of each subarray satisfy a threshold condition. If the weights satisfy the threshold condition, the transmitter node disables the corresponding power amplifier.

Abstract: A wireless communication apparatus (10) uses a RADAR or LIDAR assembly to scan for obstructions in predefined beam directions relative to a directional antenna (40) and correspondingly classifies each direction as obstructed or unobstructed. Then, at least for communication signal frequencies above a defined frequency threshold, the apparatus (10) configures beamforming at the directional antenna (40) to prioritize beams corresponding to the unobstructed directions, or avoid beams corresponding to the obstructed directions. The beam prioritization or avoidance applies to transmit beamforming, receive beamforming, or both. In one or more implementations, the direction classifications may not be binary. For example, detected obstruction distances along the beam directions may be used to “grade” the respective directions in terms of usage priority, beam adaptations, and/or restrictions on the communication frequencies used.

Abstract: A wireless communication apparatus (10) uses a RADAR or LIDAR assembly to scan for obstructions in predefined beam directions relative to a directional antenna (40) and correspondingly classifies each direction as obstructed or unobstructed. Then, at least for communication signal frequencies above a defined frequency threshold, the apparatus (10) configures beamforming at the directional antenna (40) to prioritize beams corresponding to the unobstructed directions, or avoid beams corresponding to the obstructed directions. The beam prioritization or avoidance applies to transmit beamforming, receive beamforming, or both. In one or more implementations, the direction classifications may not be binary. For example, detected obstruction distances along the beam directions may be used to “grade” the respective directions in terms of usage priority, beam adaptations, and/or restrictions on the communication frequencies used.

Abstract: The solution presented herein improves the power consumption of an antenna array, such as used in beamforming systems, based on the antenna weights of the one or more antenna elements of the subarrays of the antenna array. To that end, a transmitter node comprising the antenna array determines whether the antenna weights of each subarray satisfy a threshold condition. If the weights satisfy the threshold condition, the transmitter node disables the corresponding power amplifier.

Abstract: When a user equipment, UE, is in a situation involving selection or reselection of radio cell to use in subsequent communication, in addition to the signal strength, the UE considers the feature set supported in the cell. The type of phone, i.e. a “smart phone”, “feature phone”, “Facebook-only phone” etc. can also be considered together with information about the usage history. That is, the usage pattern of the mobile and web browsing history.

Abstract: A mobility management method of a wireless communication device is disclosed. The method comprises receiving a first signal related to a first cell, determining a size of the first cell based on the first signal, receiving a second signal related to a second cell, and determining a size of the second cell based on the second signal. The method further comprises scaling at least one mobility parameter based on the determined sizes of the first and second cells, and performing mobility management in the second cell based on the scaled mobility parameters. Corresponding computer program product, arrangement and devices are also disclosed.

Abstract: Processing of public warning notifications in a mobile communication terminal is disclosed, the terminal being camped on a cell belonging to a first public land mobile network, PLMN. A first warning notification is received, and information contained in the first warning notification is provided to a user of the mobile communication terminal. Radio reception conditions are analyzed and, depending on results of the analysis of radio reception conditions, a secondary public warning notification, SN, is received from a second PLMN. Information contained in the SN is then provided to the user of the mobile communication terminal.

Abstract: An arrangement (400) for a user equipment, UE, is disclosed. The arrangement (400) comprises an acquiring unit (401) configured to acquire neighboring cell information relating to a plurality of neighboring cells. An assignment unit (403) is provided to assign a priority indicator to each neighboring cell based on the neighboring cell information. Also, a measurement unit (404) is provided to perform measurements on the basis of the assigned priority indicators. The arrangement (400) is arranged such that measurements can be performed more frequently for a neighboring cell having a first priority indicator compared with another neighboring cell having a second priority indicator, which second priority indicator is comparatively lower than the first priority indicator. The disclosure also presents corresponding methods, computer program products and devices.

Abstract: When a user equipment, UE, is in a situation involving selection or reselection of radio cell to use in subsequent communication, in addition to the signal strength, the UE considers the feature set supported in the cell. The type of phone, i.e. a “smart phone”, “feature phone”, “Facebook-only phone” etc. can also be considered together with information about the usage history. That is, the usage pattern of the mobile and web browsing history.

Abstract: A mobility management method of a wireless communication device is disclosed. The method comprises receiving a first signal related to a first cell, determining a size of the first cell based on the first signal, receiving a second signal related to a second cell, and determining a size of the second cell based on the second signal. The method further comprises scaling at least one mobility parameter based on the determined sizes of the first and second cells, and performing mobility management in the second cell based on the scaled mobility parameters. Corresponding computer program product, arrangement and devices are also disclosed.

Abstract: An arrangement (400) for a user equipment, UE, is disclosed. The arrangement (400) comprises an acquiring unit (401) configured to acquire neighboring cell information relating to a plurality of neighboring cells. An assignment unit (403) is provided to assign a priority indicator to each neighboring cell based on the neighboring cell information. Also, a measurement unit (404) is provided to perform measurements on the basis of the assigned priority indicators. The arrangement (400) is arranged such that measurements can be performed more frequently for a neighboring cell having a first priority indicator compared with another neighboring cell having a second priority indicator, which second priority indicator is comparatively lower than the first priority indicator. The disclosure also presents corresponding methods, computer program products and devices.

Abstract: Processing of public warning notifications in a mobile communication terminal is disclosed, the terminal being camped on a cell belonging to a first public land mobile network, PLMN. A first warning notification is received, and information contained in the first warning notification is provided to a user of the mobile communication terminal. Radio reception conditions are analyzed and, depending on results of the analysis of radio reception conditions, a secondary public warning notification, SN, is received from a second PLMN. Information contained in the SN is then provided to the user of the mobile communication terminal.